Switching of the vacuum-arc discharge direct current

被引:0
|
作者
E. F. Prozorov
K. N. Ul’yanov
V. A. Fedorov
机构
[1] Lenin All-Russia Electrotechnical Institute (FGUP VEI),Federal State Unitary Enterprise
来源
High Temperature | 2014年 / 52卷
关键词
Magnetic Field; Discharge Chamber; Pulse Magnetic Field; Cathode Spot; Current Interruption;
D O I
暂无
中图分类号
学科分类号
摘要
Interruption of the direct current of a vacuum-arc discharge (VAD) is analyzed with three methods: the connection of a shunt circuit with a capacitor to the discharge chamber, the overlaying of a pulse nonhomogeneous axisymmetric magnetic field upon the discharge, and the combined action of the magnetic field and the shunt circuit. The probability of interruption of the current I = 500 A as a function of the magnetic field induction is obtained for various shunt capacitances within the range 25 ≤ C ≤ 2500 microfarad (μF). It is shown that the probability of interruption for a given magnetic field induction increases as the capacitance is raised and for the given capacitance it increases as the induction is increased. The magnitude of the magnetic system current Im to ensure the current interruption with the probability P = 1 is obtained as a function of the shunt capacitance. The impact of the shunt circuit parameters upon the arc current is analyzed. The time-domain plot of the arc current for the shunt capacitor C = 2500 μF was estimated. Its results agree with the experiment. It is shown that the combined use of the magnetic field and the capacitive shunt circuit is an effective method of VAD direct current interruption.
引用
收藏
页码:179 / 184
页数:5
相关论文
共 50 条
  • [11] Controlling the location of the channel of an arc discharge in vacuum-arc devices
    Rusakov, AI
    Semenov, AA
    Voronin, AV
    ISDEIV - XVIITH INTERNATIONAL SYMPOSIUM ON DISCHARGES AND ELECTRICAL INSULATION IN VACUUM, PROCEEDINGS, VOLS I AND II, 1996, : 109 - 112
  • [12] MEASUREMENT OF INSTABILITY INITIATION CURRENT IN VACUUM-ARC
    SUZUKI, S
    OKUTOMI, T
    MORIMIYA, O
    JAPANESE JOURNAL OF APPLIED PHYSICS PART 1-REGULAR PAPERS SHORT NOTES & REVIEW PAPERS, 1988, 27 (01): : 157 - 158
  • [13] CURRENT AND VOLTAGE DISTRIBUTION IN THE DIFFUSE VACUUM-ARC
    SCHELLEKENS, H
    SCHRAM, DC
    IEEE TRANSACTIONS ON PLASMA SCIENCE, 1985, 13 (05) : 261 - 264
  • [14] METAL VAPOR VACUUM-ARC SWITCHING - APPLICATIONS AND RESULTS
    COPE, D
    MONGEAU, P
    IEEE TRANSACTIONS ON MAGNETICS, 1984, 20 (02) : 316 - 319
  • [15] CURRENT-VOLTAGE CHARACTERISTICS OF THE VACUUM-ARC
    DROUET, MG
    BULLETIN OF THE AMERICAN PHYSICAL SOCIETY, 1980, 25 (02): : 102 - 102
  • [16] Application of a vacuum-arc discharge for the production of biocompatible coatings
    Kostrin, D. K.
    Lisenkov, A. A.
    25TH INTERNATIONAL CONFERENCE ON VACUUM TECHNIQUE AND TECHNOLOGY, 2018, 387
  • [17] STRUCTURE OF FERRITE FILMS DEPOSITED BY VACUUM-ARC DISCHARGE
    NAOE, M
    KIKUCHI, M
    NAGAKURA, S
    YAMANAKA, S
    JAPANESE JOURNAL OF APPLIED PHYSICS, 1967, 6 (06) : 783 - &
  • [18] ARC-ENHANCED GLOW-DISCHARGE IN VACUUM-ARC MACHINES
    VETTER, J
    BURGMER, W
    PERRY, AJ
    SURFACE & COATINGS TECHNOLOGY, 1993, 59 (1-3): : 152 - 155
  • [19] THE VACUUM-ARC AND VACUUM INTERRUPTION
    MALKIN, P
    JOURNAL OF PHYSICS D-APPLIED PHYSICS, 1989, 22 (08) : 1005 - 1019
  • [20] Critical flow of high-speed ions in a high-current vacuum-arc discharge
    Londer, Ya. I.
    Ul'yanov, K. N.
    HIGH TEMPERATURE, 2007, 45 (04) : 446 - 455